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The SKA Observatory

Discover the intergovernmental organization in charge of SKA construction and operations

Coordination

Since 2011, the IAA-CSIC coordinates the Spanish scientific and technological participation in the SKA

Science

Decades of unique experience and expertise in centimeter radiointerferometry and multi-frequency collaborations.

Construction and Design

Discover the main technological developments and participation in construction at national level

SKA Regional Centres

Discover the platform where the SKA science will be held

SKA-Low captures its first image of the universe

March 17, 2025 – The first image from the SKA-Low radio telescope was released today. SKA-Low is part of the SKA Observatory (SKAO) and is located in Australia. This marks a significant milestone in SKAO's mission to provide an unprecedented view of our universe.

The first image using four stations of SKA-Low. The full moon in the upper right corner is shown for image size reference. Credit: SKAO

The image covers an area of ​​the sky approximately 25 square degrees in size, equivalent to about 100 full moons. It displays 85 of the brightest known galaxies in that region, all of which contain supermassive black holes. The image was obtained with an early version of the SKA-Low telescope, one of two telescopes being built by SKAO. This early version of SKA-Low consists of just 1,000 of the planned 131,000 antennas. Once completed, the telescope will be able to reveal many more objects; scientists estimate it will be able to detect more than 600,000 galaxies in the same region of the sky.

SKAO is currently building two radio telescopes: SKA-Low in Western Australia and SKA-Mid in the Northern Cape Province of South Africa. The telescopes are arrays of 15-meter parabolic antennas (SKA-Mid) and dipole antennas (SKA-Low), spread over large distances. Two Spanish companies, Safran Electronics & Defense Spain and EMITE, are playing a key role in the construction of SKA-Low, providing high-precision synchronization systems between the antennas and equipment for testing and validating electronic components. "Synchronizing the signals from the different antennas is crucial for combining them correctly. Furthermore, to avoid interference, it is necessary to test that all electronic components do not generate noise in radio waves that could affect the signal from the astronomical objects being observed," explains Dr. Julián Garrido, deputy technology coordinator at SKA-Spain, adding: "For this same reason, the telescopes are being built in remote, sparsely populated locations, minimising human-caused interference."

SKA-Low is being built at Inyarrimanha Ilgari Bundara, the CSIRO Murchison Radio Astronomy Observatory, which is located on the lands of the Wajarri Yamaji Aboriginal people, the traditional owners and native land title holders. The location's Aboriginal name, Inyarrimanha Ilgari Bundara, means "sharing the sky and stars", and reflects the commitment and collaboration between SKAO and the Indigenous peoples and cultures who inhabit the lands where its telescopes are being built.

Drone image of SKA-Low's S8 cluster with two stations completed from June 2024. Credit: SKAO

The acquisition of this image has verified the telescope's operation and capabilities. Professor Philip Diamond, Director General of the SKAO, said the image marks the observatory's debut as a scientific facility. "With this image we see the promise of the SKA Observatory as it opens its eyes to the Universe," said Professor Diamond. "This first image is a critical step for the Observatory, and for the astronomy community; we are demonstrating that the system as a whole is working. As the telescopes grow, and more stations and dishes come online, we’ll see the images improve in leaps and bounds and start to realise the full power of the SKAO."

The SKAO telescopes are being built in phases, with components sourced from SKAO member countries around the world. Dr. Lourdes Verdes-Montenegro, coordinator of Spain's participation in the SKAO, highlighted the international nature of the observatory: "This milestone has been possible thanks to an international collaboration between scientists and engineers from academia and industry. Sixteen countries from five continents are participating in the SKA project, and the impact it is already having and will have will be global thanks to SKAO's commitment to the scientific community and international society as a whole."

The Spanish participation in the SKAO is funded by the Ministry of Science, Innovation and Universities, with the Andalusian Institute of Astrophysics (IAA-CSIC) responsible for the national scientific and technical coordination of the project.

This animation shows the various stages of deployment of the SKA-Low telescope over the coming years, and the images it is expected to produce of the same area of ​​the sky. Credit: SKAO

Links of interest

Associated multimedia materials https://skao.canto.global/b/LTFMH

SKAO press release: https://www.skao.int/en/news/621/ska-low-first-glimpse-universe

Spain, a pioneer in the global network of SKA regional centers

27/02/2025 – The Spanish prototype of the SKA Regional Centre, under development by the IAA-CSIC, becomes the first centre to successfully complete its integration into SRCNet0.1, the first operational version of the international network that will constitute the scientific heart of the SKA Observatory (SKAO).

SKAO is an international organization building two state-of-the-art radio telescopes: SKA-Low in Australia, with over 130,000 dipole antennas for transmitting and receiving radio waves, and SKA-Mid in South Africa, with 197 parabolic antennas, each 15 meters in diameter. When the observatory's telescopes are operational, they will generate over 700 million gigabytes of data annually. All this data will be housed at SKA Regional Centres (SRCs), where it can also be accessed remotely. The various SRCs, distributed around the world, will be interconnected, forming a global network: SRCNet.

Last Monday, February 24, it was announced that the Spanish prototype of the SKA Regional Center, being developed at the Institute of Astrophysics of Andalusia (IAA-CSIC), was the first to complete the deployment and integration of the services required to become part of SRCNet0.1. This initial operational version of the international network will be fundamental for the functioning of the SKA Observatory (SKAO).

The Spanish prototype of SRC, called espSRC, is one of 17 national initiatives contributing to the development of SRCNet. “We have been working on this project since 2019, demonstrating our firm commitment to the development of SRCNet as a collaborative platform. Being the first center to deploy the necessary services to become an SRCNet0.1 node is a result of this commitment and close collaboration with the other international groups involved,” says Susana Sánchez-Expósito, technical coordinator of espSRC at the IAA-CSIC. “We currently have a fully functional system that has served more than 30 scientific projects in different branches of astrophysics,” she adds. Isabel Márquez, scientific director of the Severo Ochoa program at the IAA-CSIC, also highlights: “It is this multidisciplinary approach that makes the SRC prototype one of the key pillars, and a cross-cutting element in our scientific strategy, funded by our Severo Ochoa excellence project. Having an infrastructure of this level at our center positions Andalusia and Spain within the international SKA collaboration.”

Members of the Spanish SKA team assembling the servers for the Spanish SRC Prototype (2020). Credit: IAA-CSIC

For her part, Lourdes Verdes-Montenegro, a researcher at the IAA-CSIC, coordinator of Spanish participation in SKAO, and head of the espSRC, emphasizes that “SKAO embraces sustainability and open science among its founding principles, and our prototype stands out as a benchmark for implementing both aspects within the SRCNet.” Open science is based on the principle of research reproducibility. According to UNESCO, this approach is increasingly recognized as a fundamental accelerator for achieving the Sustainable Development Goals (SDGs). To this end, it is essential that data, methods, and analytical tools be available to society. “SKAO will change the way science is done: it will no longer be possible to work locally on our computers, and the SRCs will constitute the scientific core of SKAO, providing an environment that fosters and facilitates collaboration between international teams following the principles of open science,” concludes Lourdes Verdes-Montenegro.

Reunión: Una nueva era en la astrofísica: preparación para la ciencia temprana con la SKAO Görlitz, Alemania, 16-20 de junio de 2025

23/01/2025 - A new era in astrophysics: Preparing for early science with the SKAO Görlitz, Germany, 16-20 June, 2025

Abstract deadline: February 7, 2025
Registration is now open, early reduced-rate registration closes March 31.
More information and registration:
https://www.skao.int/en/science-users/skao-science-meeting-2025

Taking place just two years before the SKA telescopes will be tested on the first community-chosen targets, the meeting will bring together scientists from across the globe to discuss and collaborate on the cutting-edge science opportunities that the SKAO will provide in its early years of operations. Online participation will be supported for the whole week for those unable to attend in person.
Full details about the meeting are available at the #SKAOsci2025 website. #SKAOsci2025.

Record-breaking radio transient discovery with MWA

22/01/2025 - A radio transient with the longest period yet seen, 2.9 hrs, was discovered by a team including Nanda Rea of ICE-CSIC and published in December 2024.

The team found the transient in low-frequency archival data from the SKAO precursor Murchison Widefield Array (MWA). Such long-period radio transients are a fairly new area of research and it is challenging to determine how the signals are generated. In this case, the team managed to find the probable source for the energy bursts, using another SKA precursor, MeerKAT, and optical SOAR observatory, and determine that the optical counterpart is a cool M3 dwarf star. This means that the signal is not due to a magnetar, but more likely is generated in a dwarf binary system scenario.

Read more:
ICE-CSIC press release
ICRAR press release
Paper: Hurley-Walker et al., 2025

Using 2 SKAO precursors, the team could trace the 2.9 hr long-period transient radio source to a specific object and measure its counterpart in optical to find an M3 dwarf star. Image credit: Hurley-Walker at al, 2024..

The team found the radio signal in archival data from the Murchison Widefield Array radio telescope, an SKAO precursor. Image credit: ICRAR/Curtin.

Invitación a la comunidad científica internacional para contribuir a la actualización del libro de ciencia de SKA

Invitación a la comunidad científica internacional para contribuir a la actualización del libro de ciencia de SKA

01/09/2024 – El Observatorio SKA abre a la comunidad científica internacional la convocatoria para contribuir a la nueva edición del libro de ciencia SKA hasta el próximo 30 de septiembre.

El próximo año, durante la Reunión General de Ciencia del Observatorio SKA (SKAO) que se celebrará del 16 al 20 de junio, se cumplirá una década desde la publicación del libro de ciencia de SKA «Advancing Astrophysics with the Square Kilometre Array«. Este libro, escrito por la propia comunidad internacional, documenta los avances científicos que serán posibles gracias a los telescopios del SKA. En estos diez años, el diseño se ha cerrado, la construcción ha comenzado y la Organización SKA se ha transformado en un observatorio en forma de organización intergubernamental que abarca cinco continentes y ambos hemisferios.

Durante este tiempo, las observaciones realizadas con los telescopios precursores y pathfinders de SKA han arrojado nueva luz sobre enigmas científicos ya existentes y han descubierto nuevos fenómenos a la espera de una respuesta. Ahora, el SKAO está listo para comenzar las primeras pruebas para su puesta en marcha, con lo que las actividades de observación irán incrementando rápidamente. Los primeros datos de verificación científica estarán disponibles públicamente para la comunidad en 2027, y las operaciones con ambos telescopios comenzarán en 2029.


Credit: SKA Observatory

En este momento crítico, SKAO invita a la comunidad científica a contribuir a redactar una nueva versión del libro de ciencia del SKAO. El objetivo es proporcionar una cobertura actualizada de las preguntas científicas que abordarán los telescopios del SKA que esté redactada sobre la base de un conjunto maduro de especificaciones y con una variedad de herramientas y documentos disponibles basados en trabajos de diseño detallados y características del entorno de los telescopios del SKA.

El SKAO ha puesto a disposición de la comunidad científica una página donde se encuentran los detalles sobre la presentación de las expresiones de interés  en contribuir con un capítulo del libro y sobre la Reunión General de Ciencia del SKAO 2025. Desde el equipo de coordinación de SKA-Spain, animamos a la comunidad española, especialmente al personal que se encuentra en etapas tempranas de sus carreras, a contribuir al libro, ya sea actualizando casos científicos existentes o incluyendo nuevos casos no cubiertos anteriormente. La convocatoria de Expresiones de Interés se cerrará el 30 de septiembre de 2024, serán revisadas por los presidentes de los Science Working Groups de SKA y se invitará a todas las ideas científicas viables a prepararse como capítulos para el libro.

Esta iniciativa presenta una oportunidad única para la comunidad científica española de influir en la dirección de la investigación astronómica internacional de los próximos años. España, como país miembro de SKAO, tendrá acceso tanto a los Key Science Projects (KSPs – proyectos de legado que ocuparan el ~ 70% del tiempo en los primeros 5 años de operaciones) como al tiempo asignado para propuestas de IP, que será proporcional al porcentaje de participación de cada país miembro. Al actualizar y añadir nuevas ideas al libro, la comunidad española podrá contribuir a maximizar el potencial científico de los telescopios del SKA y asegurar que éstos aborden el interés científico nacional, con el objetivo de mantener a la comunidad a la vanguardia de los descubrimientos astronómicos.

En conclusión, la nueva edición del libro de ciencia SKA será una guía esencial para los futuros estudios astronómicos y una plataforma para la colaboración internacional. Desde SKA-Spain, invitamos a todos los interesados a participar en esta emocionante aventura científica y a contribuir con sus conocimientos y experiencias para hacer de esta publicación un recurso valioso y actualizado para la comunidad científica global.

Outstanding presence of the SKA project at the 16th Scientific Meeting of the SEA

02/08/2024 – More than 630 participants gathered in Granada to discuss the latest developments in astronomy. The SKA project was extensively discussed, with key presentations on its technological and scientific capabilities, underlining the importance of Spanish collaboration in this global research infrastructure.

From July 15th to 19th, the XVI Scientific Meeting of the Spanish Astronomical Society (SEA, for its acronym in Spanish) was held in Granada, with a record attendance of over 630 participants and more than 400 scientific talks. During this meeting, the latest scientific and technological advances in astronomy and the Spanish participation in major projects and research infrastructures were shared. Among these, the SKA project played a prominent role, as it was the subject of the inaugural plenary lecture, a special session, and also featured in another plenary and talks in various parallel sessions.

Inaugural plenary lecture “Science with SKA: the mother of all radio telescopes” by Miguel Pérez-Torres (IAA-CSIC)

In the inaugural talk, Miguel Pérez-Torres (IAA-CSIC) discussed the capabilities of SKAO telescopes and the scientific research that can be conducted with them, encouraging all attendees to become part of the SKA community by participating in the Science Working Groups. This talk can be watched in full on the SEA's YouTube channel (link). The special session on SKA focused on the latest developments at the SKA Observatory and its international network of Regional Centres (SRCNet), addressing topics such as: the timeline for the construction of SKAO telescopes, updates on scientific cases, the SKA Science Conference to be held in June 2025, the tools already available to the community, the services offered by the Spanish prototype of SKA Regional Centre at IAA-CSIC (espSRC), and the launch of the first functional version of the SRCNet in early 2025.

Julián Garrido (IAA-CSIC) and Javier Moldón (IAA-CSIC) during the special session on SKA

The plenary talks on the second day included a presentation by Vanessa Graber (University of Hertfordshire). In this talk, she summarised the work she conducted at the Institute of Space Sciences (ICE-CSIC) on pulsars and long-period radio transients, highlighting observations made with the Murchison Widefield Array, one of the SKAO precursors in Australia. This talk can also be viewed on the SEA's YouTube channel (link).

In the parallel sessions, the SKA project was also discussed from the scientific, technological and science communication aspects. The invited talks by Susana Sánchez (IAA-CSIC) and Lourdes Verdes-Montenegro (IAA-CSIC) were particularly focused on the SKA project. Susana Sánchez discussed Spain's contribution to SRCNet and the TED4SKA project, which aims to reduce the energy consumption of SKA Regional Centres. Lourdes Verdes-Montenegro provided a review of the study of galaxies and their environments using HI observations with SKA precursors and pathfinders.
También se presentaron otras tres charlas sobre observaciones con precursores y pathfinders de SKA: Jacobo Asorey (UCM) habló sobre Cosmología con surveys de ASKAP,  Roger Ianjamasimanana (IAA-CSIC) presentó un trabajo sobre el gas en grupos compactos de Hickson realizado con observaciones de MeerKAT y  Shane O’Sullivan (UCM) sobre observaciones del medio intergaláctico magnetizado realizadas en los surveys LOTSS de LOFAR y POSSUM de ASKAP.
In the instrumentation and supercomputing session, Ixaka Labadie (IAA-CSIC) presented his research on remote and interactive visualisation of spectral data cubes implemented in the espSRC, which is already being applied to MeerKAT data, a SKA precursor telescope. In a different area, Marcos Villaverde (IAA-CSIC) spoke in the session dedicated to education, outreach, and heritage about the outreach initiatives carried out by SKAO and the role of Open Science in dissemination. It is also worth mentioning a poster by David Alonso-López (UCM) on work conducted within the POSSUM-ASKAP collaboration concerning the magnetised gas in the Shapley supercluster

In addition to all this, SKAO and its telescopes were featured in other talks as a reference for the future. All of this reflects the Spanish community's interest in the SKA project and its science.

From left to right and from top to bottom: Shane O’Sullivan (UCM), Lourdes Verdes-Montenegro (IAA-CSIC), Vanessa Graber (University of Hertfordshire / ICE-CSIC), Ixaka Labadie (IAA-CSIC), Susana Sánchez (IAA-CSIC), Marcos Villaverde (IAA-CSIC) and Roger Ianjamasimanana (IAA-CSIC)

 

Granada hosts first SKA Open Science school as hybrid meeting

22/06/2023 – The emerging era of Big Data is demanding a transformation in the way science is done via a growing push to make scientific research more accessible, a movement known as 'Open Science'. To explore what this means in practice for researchers, the first SKA Open Science School took place in Granada, Spain, from 8-10 May 2023, bringing together 80 participants from 14 countries.

The IAA-CSIC Severo Ochoa Open Science school at the Institute of Astrophysics of Andalusia was organised as a fully hybrid meeting, with around 50% of its participants attending online. Credit: IAA-CSIC

The hybrid school was endorsed by the SKA Regional Centre partner training programme and co-organised with the SKAO under the IAA-CSIC Severo Ochoa Programme.

Participants ranged from graduate students looking for tips on making their thesis work reproducible (making tools and techniques public so that others – and even the original researchers themselves – can achieve the same results later), to the already Open Science-savvy wanting to learn practical tools. Instructors discussed transitions in science practices with accompanying challenges, and presented practical solutions, including hands-on demos. They covered topics on how to make projects/code portable throughout new versions of software, how to best use containers and science platforms, virtual observatories, setting up citizen science projects, licenses, and more.

Discussions continued between sessions on how to change habits that give quick, publishable results (the “publish-or-perish” mentality) and instead invest the time needed for long-term open and reproducible science, including how Open Science work can be appreciated by employers. As Prof. Eva Mendez of Charles III University of Madrid (UC3M) asked: “Are we prepared for a new research evaluation?”

SKAO Scientist Dr Philippa Hartley shared the new SKAO statement on Open Science, including its mission and what Open Science will do for the SKA, and the IAA’s Dr Lourdes Verdes-Montenegro, coordinator of the Spanish participation in the SKA, noted that “large scientific infrastructures have an ethical role and a practical need in Open Science”.

Sessions from the Open Science school are publicly available on the school webpage.

The first radio detection of a type Ia supernova sheds light, after decades of debate, on the origin of these explosions

17/05/2023 – These bursts, which show a similar luminosity in almost all cases, are used to measure distances in the universe or to study dark energy. The study, in which the Institute de Astrophysics de Andalusia (IAA-CSIC) participates, shows that the explosion occurred in a double star system in which a white dwarf stole material from its solar-type companion. El trabajo, en el que participa el Instituto de Astrofísica de Andalucía (IAA-CSIC), muestra que la explosión se produjo en un sistema doble de estrellas en el que una enana blanca robaba material de su compañera, de tipo solar.

Type Ia supernovae are produced when a white dwarf, the "corpse" of a Sun-like star, absorbs material from a companion star and reaches a critical mass, equivalent to 1.4 solar masses, triggering an explosion whose luminosity will, given its origin, be similar in almost all cases. This uniformity made Type Ia supernovae the ideal objects for measuring distances in the Universe, but the origin and nature of the progenitor system was unknown. Now, the first radio observation of a type Ia supernova confirms that it comes from a double star system consisting of a white dwarf and a solar-type star. The results are published in the journal Nature.

"When we saw signs of a strong interaction with the companion star material in supernova SN2020eyj, we tried to observe the explosion in radio, something that had been attempted without success for decades", explains Erik Kool, a researcher at Stockholm University and lead author of the paper.

Type Ia supernovae always contain a white dwarf, which receives material from its companion. However, it was not known whether this companion was a white dwarf or a Sun-like star, something that radio imaging could reveal.

“This first radio detection of a type Ia supernova is a milestone that has allowed us to demonstrate that the exploded white dwarf was accompanied by a normal, non-degenerate star before the explosion", says Javier Moldón, a researcher at the IAA-CSIC who participated in the discovery. In addition, with these observations we can estimate the mass and geometry of the material surrounding the supernova, which allows us to better understand what the system was like before the explosion.

Artist's conception of the system that produced the supernova, in which a white dwarf star absorbs material from its companion star. Source: Adam Makarenko/W. M. Keck Observatory.

This work, whose contribution in radio data was led by the IAA-CSIC, has confirmed that the material expelled in the supernova explosion collided, after travelling sixty days, with the material surrounding the system, composed mostly of helium, which indicates that the companion star was not a white dwarf. Furthermore, models predicted that the radio emission, if present, would take many months to be detectable, and indeed the science team had to wait a year and a half to detect the supernova's radio counterpart.

 “The unusual light curve of SN 2020eyj, the infrared emission, the detection of helium emission lines and the unprecedented radio detection make this supernova unique, a treasure of information with implications for multiple fields of research", says Miguel Pérez Torres, an IAA-CSIC researcher participating in the study. “Studying more similar systems will allow us to better understand the origin of these standard candles and the chemical evolution of galaxies”.

"Now that we have shown that radio observations can provide direct and unique information to understand this type of supernovae, it opens a path to study these systems with the new generation of radio instruments, such as the Square Kilometre Array Observatory (SKAO) in the future", concludes Javier Moldón (IAA-CSIC).

The result has been possible thanks to e-MERLIN, an array of very high angular resolution radio telescopes, and the analysis of the data has been carried out from the Spanish prototype of the SKA Regional Centre (SPSRC) of the IAA-CSIC, which is supported by the Severo Ochoa project of the IAA and which facilitates the processing of data from SKAO pathfinders, such as e-MERLIN.

Reference:
E. C. Kool et al. «A radio-detected type Ia supernova with helium-rich circumstellar material«Nature, May 2023. https://www.nature.com/articles/s41586-023-05916-w DOI 10.1038/s41586-023-05916-w

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Spain joins the SKA Observatory to participate in the construction of the largest radioastronomy facility on the planet

05/04/2023 – The Spanish contribution to the project, which amounts to 41.4 million euros until 2030, will allow Spanish companies to participate in contracts of high technological value for the construction of this scientific infrastructure. The Institute de Astrophysics de Andalusia (IAA-CSIC) is responsible for the technical coordination of the Spanish participation in the project.

The Council of Ministers has approved this Tuesday the accession of Spain as a full member of the SKA Observatory (SKAO), an intergovernmental organisation that is building two complementary world-class radiotelescopes that will constitute one of the largest and most ambitious scientific infrastructures on the planet.

The initial construction phase of the SKAO telescopes, covering the period from 2021 to 2030, will cost a total of 2,022 million euros. Spain will contribute a total of 41.4 million euros to this phase of the project, of which 7.9 million euros have already been paid between 2021 and 2022 (5.1 million euros from the Recovery, Transformation and Resilience Plan). In 2023, €2.5 million from the national budget is foreseen.

The formalisation of Spain's incorporation into the SKAO as a full member now allows Spanish companies to participate in the contracts for the construction of the two radiotelescopes, thanks to the principle of return that applies in this international organisation.

The participation of Spanish companies in at least five SKAO construction contracts is currently guaranteed. Spain will be responsible, for example, for the manufacture of the sub-reflectors (secondary mirrors) for the parabolic antennas and the production of the equipment for the time synchronisation of the radiotelescope receivers.

Spanish industry will thus increase its expertise in the many cutting-edge technologies and big data techniques that are indispensable for the operation of the SKAO and that are being developed specifically for this unique project.

Moreover, thanks to this adhesion, Spanish scientists will be able to carry out pioneering radio astronomical observations at the front line, which are destined to lead to transformational discoveries in the study of the universe.

"We are really grateful for the support of our SKAO colleagues over the years. It has been amazing to have reached this point, and we have thoroughly enjoyed the journey to get there working together with the Ministry, the CDTI and the astronomy community. Now we can move forward with even more challenging and exciting activities as part of the SKAO", declare Lourdes Verdes-Montenegro (IAA-CSIC), coordinator of the Spanish participation in SKAO.

SKAO telescopes: two innovative and revolutionary radiotelescopes

During the current construction phase, the member states of this intergovernmental organisation will agree on the contributions and the construction schedule for the next phase of the project.

The SKAO radio telescopes will consist of two arrays of hundreds of thousands of antennas of different types. The first array, dedicated to low-frequency antennas, will be located in the Murchison district of Western Australia, while the second, dedicated to medium and high frequencies, will be distributed in the Karoo Desert of South Africa.

When completed, the SKAO telescopes will be a colossal observatory: they will have tens of times the sensitivity, and thousands of times the observing speed, of the best radio astronomical facilities available today, and their performance will not be surpassed by any other radiotelescope for decades.

In addition to the scientific and technological challenges it will overcome, SKAO also faces an organisational and management challenge that is being addressed through close intergovernmental cooperation on a global scale, cooperation that will serve as a model for other large multinational projects.

Spain's participation in the SKA

Spain has been working on the design and preparatory tasks of the project since the 1990s together with the states that have already ratified the agreement establishing the SKAO - Australia, China, Italy, the Netherlands, Portugal, the United Kingdom, South Africa and Switzerland - and those that are in the process of ratifying it - Germany, Canada, South Korea, France, India, Japan and Sweden.

The technical coordination of the Spanish participation in the project is the responsibility of the Institute of Astrophysics of Andalusia (IAA-CSIC), which belongs to the Consejo Superior de Investigaciones Científicas (Spanish National Research Council), an agency of the Spanish Ministry of Science and Innovation, whose main role is to organise the national scientific community for its participation in the project.

There are currently astrophysicists from Spain involved in almost all the SKA science working teams, as well as in other groups, such as the energy supply options or the coordination of the regional centres.

More information:
EN